Experts in fast-ball sports reduce anticipation timing cost by developing inhibitory control

► Experts in fast ball sports adapt readily to changing environment. ► A better adaptation is due to efficient reprogramming of prepared motor output. ► Experts reveal augmented frontal activity in ERP after environmental changes. ► Experts replace inadequate commands with whole new commands by an i...

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Veröffentlicht in:Brain and cognition 2012-10, Vol.80 (1), p.23-32
Hauptverfasser: Nakamoto, Hiroki, Mori, Shiro
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description ► Experts in fast ball sports adapt readily to changing environment. ► A better adaptation is due to efficient reprogramming of prepared motor output. ► Experts reveal augmented frontal activity in ERP after environmental changes. ► Experts replace inadequate commands with whole new commands by an inhibitory control. The present study was conducted to examine the relationship between expertise in movement correction and rate of movement reprogramming within limited time periods, and to clarify the specific cognitive processes regarding superior reprogramming ability in experts. Event-related potentials (ERPs) were recorded in baseball experts (n=7) and novices (n=7) while they completed a predictive task. The task was to manually press a button to coincide with the arrival of a moving target. The target moved at a constant velocity, and its velocity was suddenly decreased in some trials. Under changed velocity conditions, the baseball experts showed significantly smaller timing errors and a higher rate of timing reprogramming than the novices. Moreover, ERPs in baseball experts revealed faster central negative deflection and augmented frontal positive deflection at 200ms (N200) and 300ms (Pd300) after target deceleration, respectively. Following this, peak latency of the next positive component in the central region (P300b) was delayed. The negative deflection at 200ms, augmented frontal positive deflection, and late positive deflection at 300ms have been interpreted as reflecting stimulus detection, motor inhibition, and stimulus–response translation processes. Taken together, these findings suggest that the experts have developed movement reprogramming to avoid anticipation cost, and this is characterized by quick detection of target velocity change, stronger inhibition of the planned, incorrect response, and update of the stimulus–response relationship in the changed environment.
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The present study was conducted to examine the relationship between expertise in movement correction and rate of movement reprogramming within limited time periods, and to clarify the specific cognitive processes regarding superior reprogramming ability in experts. Event-related potentials (ERPs) were recorded in baseball experts (n=7) and novices (n=7) while they completed a predictive task. The task was to manually press a button to coincide with the arrival of a moving target. The target moved at a constant velocity, and its velocity was suddenly decreased in some trials. Under changed velocity conditions, the baseball experts showed significantly smaller timing errors and a higher rate of timing reprogramming than the novices. Moreover, ERPs in baseball experts revealed faster central negative deflection and augmented frontal positive deflection at 200ms (N200) and 300ms (Pd300) after target deceleration, respectively. 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The present study was conducted to examine the relationship between expertise in movement correction and rate of movement reprogramming within limited time periods, and to clarify the specific cognitive processes regarding superior reprogramming ability in experts. Event-related potentials (ERPs) were recorded in baseball experts (n=7) and novices (n=7) while they completed a predictive task. The task was to manually press a button to coincide with the arrival of a moving target. The target moved at a constant velocity, and its velocity was suddenly decreased in some trials. Under changed velocity conditions, the baseball experts showed significantly smaller timing errors and a higher rate of timing reprogramming than the novices. Moreover, ERPs in baseball experts revealed faster central negative deflection and augmented frontal positive deflection at 200ms (N200) and 300ms (Pd300) after target deceleration, respectively. Following this, peak latency of the next positive component in the central region (P300b) was delayed. The negative deflection at 200ms, augmented frontal positive deflection, and late positive deflection at 300ms have been interpreted as reflecting stimulus detection, motor inhibition, and stimulus–response translation processes. Taken together, these findings suggest that the experts have developed movement reprogramming to avoid anticipation cost, and this is characterized by quick detection of target velocity change, stronger inhibition of the planned, incorrect response, and update of the stimulus–response relationship in the changed environment.</abstract><cop>Amsterdam</cop><pub>Elsevier Inc</pub><pmid>22626919</pmid><doi>10.1016/j.bandc.2012.04.004</doi><tpages>10</tpages></addata></record>
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subjects Activity levels. Psychomotricity
Adolescent
Applied psychology
Biological and medical sciences
Brain - physiology
Brain Hemisphere Functions
Cognitive ability
Cognitive Processes
Correlation
Diagnostic Tests
Electroencephalography
Error Correction
Evoked Potentials - physiology
Expertise
Fundamental and applied biological sciences. Psychology
Humans
Inhibition
Inhibition (Psychology)
Male
Motion
Motor Reactions
Movement - physiology
Movement correction
Physics
Prediction
Psychology. Psychoanalysis. Psychiatry
Psychology. Psychophysiology
Psychomotor activities
Psychomotor Performance - physiology
Reaction Time - physiology
Reprogramming
Sports
Sports - physiology
Sports. Leisure
Stimuli
Task Analysis
Team Sports
Visual Perception - physiology
Young Adult
title Experts in fast-ball sports reduce anticipation timing cost by developing inhibitory control
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